System for transmitting energy without wires



Aug. 12, 1924. 1,504,974

C. RENO SYSTEM FOR TRANSMITTING ENERGY WITHOUT WIRES Filed March 1, 1920 6 Sheets-Shelat i Fig. 2.

INVENTOR- C. RENO SYSTEM FOR TRANSMITTING ENERGY WITHOUT WIRES Filed March 1, 1920 6 Sheets-Sheet 2 Fig.3.

INVENTOR Aug. 12 1924. v 1,504,974

C. RENO SYSTEM FOR TRANSMITTING ENERGY WITHOUT WIRES Filed March 1, l920 6 Sheets-Sheet 5 -C2 INVENTOR SYSTEM FOR TRANSMITTING ENERGY WITHOUT WIRES Filed March 1, 1920 6 Sheets-Sheet 4 Fig.7

INVENTOR Aug. 12, 1924. 1,504,974

C. RENO SYSTEM FOR TRANSMITTING ENERGY WITHOUT WIRES Filed March 1 1920 6 Sheets5heet 5 INVENTOR CIA/Lad C. RENO SYSTEM FOR TRANS IMTTING ENERGY WITHOUT WIRES Filed March 1 1920 6 Sheets-Sheet 6 Fig. 77.

INVENTOR Q QMO Patented Aug. 12, 1924.

UNITED STATES CONRAD RENO, OE SIRINGFIELD, MASSACHUSETTS.

SYSTEM FOR TRANSMITTING ENERGY WITHOUT WIRES.

Application filed March 1., 1920. Serial No. 362,283.

To all whom it may concern:

Be it known that I, CONRAD Rnrro, a citizen of the United States, residing at Springfield, in the county of Hampden and Commonwealth of Massachusetts, have invented an Improved System for Transmitting Energy Without Wires,'of which the following is a specification.

My invention relates chiefly to a new method of, and apparatus for, transmitting electromagnetic energy in a confined path in any desired direction throu h the air, the water and other non-meta lic. substances, without the directive aid, or agency, of connecting wires or metallic conductors of any kind.

directive wireless transmission of energy. I attain this object by causing the energy ,to flow in the concentrated form of a stream or current, which can be transmitted in any desired direction along a wireless-and-metallic circuit, or system of circuits, which connect the transmitting apparatus with the utilizing apparatus. The energy is localized within the narrow confines of the wireless-and-metallic circuit, or system of circuits, like water flowing through a pipe, and does not spread out over a wide wavefront. The energy flows in stream-like form in contradistinction to the usual spreading wave-like form of the wireless flow of energy. My method of wireless transmission of ener may be described as the stream method, to distinguish it from the usual wave method of wireless transmission of energy.

Another object of my invention is to gather .and receive energy transmitted by wireless means, and to pass the energy on by metallic conductors to suitable utilizing apparatus, such as relays, controllers, amplifiers, retransmitting apparatus, motors, lam s, and the like. This object is attained by t e aid and agency of a new form of receiving antenna, described herein, which maybe placed in operative relation with a beam or cable, or system of wireless conductors and with'the metallic conductors of the utilizing apparatus, so as toestablish a complete wireless-,and-metallic-circu1t for each phase of alternatin current, when such current is supplied to t e beam orcable, or system of wireless conductors; and also to establish a complete wireless-and-metal- The main object of my invention is the lie circuit for direct current, when direct current is supplied to the beam or'cable, or

system of wireless conductors.

,to the transmitting apparatus, may be located in the beam; or a one-way set of wireless conductors may be located in the beam, and the other-way set may be located outside of the beam.

Each wireless-and-metallic circuit is a divided circuit with many branches or divisions beginning at the transmitter-generator and ending at the utilizing apparatus. A divided circuit is known to reduce the total resistance, impedance and reluctance. Other devices and means for reducing the.

and with the metallic conductors of the relay or other form of utilizing apparatus at the other end of the-line, a complete wireless-and-metallic circuit will be established,

capable of transmitting energy in the form or a stream.

Other objects and advantages will appear in the following description and in the accompanying drawings, in which:

Fig. 1 is a diagrammatical view illustrative of the X-ray type of transmitter-generator,,designed for the use of either direct current or single phase alternating current" A Fig. 2 is a diagrammatical view illustrative of a transmitter-generator of the X-.

ray type designed "for the use of two-phase alternating current; I a

Fig. 3 is a diagrammatical view oi a receiving and utilizing apparatus for use with the transmitter-generator shownan Fig. 2;

Fig. 4 is a diagrammatical view of the primary of a transmitter-generator of the dynamo tygpe, for use in practic ng the Z-ray or ultra -ray method of WII'QlGSS transmission of energy; a

Fig. 5 is a diagrammatical vlew of the secondary of the same apparatus;

re-transmitter-generator.

Fig. 6 is a diagrammatical view combining the members separately shown in Figs.

4 and 5;

Fig. 6 shows a method of producing a beam of wireless conductors through heating the cathodes by induction currents;

Fig. 7 is a diagrammatical view of a transmitter-generator of the solenoid variety of the Z-ray type and illustrative of the operation;

Fig. 8 is a diagrammatic view of the closed-spiral iron-core variety of apparatus, wound for four-phase current, which may be used as the primary for a transmittergenerator, or as the primary for a relay, or The four phase primary windings are connected to one form of my receiving antenna;

Fig. 9 is a diagrammatical view of a transmitter-generator of v the transformer variety; for use in practicing the Z-ray method of wireless transmission of energy;

" the descriptive titles of,

solenoid, losed spiral core,

Fig. 10. is a diagrammatical view of a sec ondary member of a transmitter-generator of the three-phase type;

Fig. 11 is a diagrammatical view of the secondary of a double barreled transmitter generator for producing "two'beams of Z-ray wireless conductors and two streams of energy in opposite directions; and

Fig. 12 is a. dlagrammatical view of a re transmitter-generator designed to receive the energy from one receiving antenna and relay it to another receiving antenna.

In carrying out my methods of transmitting, receiving, and utilizing energy, I may, of course, employ various forms of apparatus and devices. In order to illustrate my method, I have shown two main types of apparatus, namely, the X-ray type and the Z -ray or ultra X -ray type. The X-ray type of apparatus generates a beam of X-rays, and what I term X-ray wireless conductors, by the means described later; The Z-ray type of apparatus generatesa beam of ultra X-rays, which I term Z-rays, and also a beam. of Z-ray wireless conductors. Another type of apparatus is the ultra-violet-ray type, which generates a beam of ultra-violet rays and ultra-violetray wireless conductors.

The X-ray, Z-ray and ultra-violet -ray typgslz of apparatus may each be'divided and an 'vide into varieties and modifications, some of which are described herein under dynamo, transformer, magnetic amplifier, a d spirall revolvin magnetic field apparatus an devices. A so many different combinations of these types, varieties and modifications may be employed to fit the exigencies of particular cases, 1n the practice of the'stream method of transmitting energy ,without wires. "In the operation of the XPray and ultraviolet-ray devices, a stream of electrons is pumped through the wireless-and-metallic circuit to the relay or other type of utilizing apparatus at high pressure, and flows back to the transmitter-generator at low pressure, when these pieces of apparatus-arc properly connected into the wireless-andmetallic circuit. In the o eration of the Z-ray device, a stream of e ectromagnetons is pumped through the wireless-and-metallic circuit, including the windings of the rela or other type of utilizing apparatus, at big 1 pressure, and flows back to the transmittergenerator at low pressure. This operation is repeated over and over a'gain whenever these pieces of apparatus are properly connected into the' wireless-and-metallic circuit.

Referring'to Fig. 1: the X-ray type of transmitter generator, designed for the use of either direct current, or single phase alternating current, will be described. A A are a pair of transmittin antennae, which connect with the pair of )Eray wireless conductors marked X X, which in turn connect with the pair of receiving antennae marked a'a.

R'is a parabolic reflector; K is a spiral coil of tungsten wire or filament, located at the focus of said reflector R; G is a generator connected with the spiral coil of tungsten, employed to heat the tungsten to incandescence, thus forming a prolific source of electrons, which are violently discharged against the interior walls of the reflector R, and generate the air of X-ray wireless conductors marked X; w is a window or thin partitionwall in the reflector R and forms with the latter a chamber which is partially air-exhausted; G is a generator supplying current to the wireless-andmetal lic circuit through the pair of transmitting antennae marked A A.

The receiving antenna shown in Fig. 1 consists of two segments, a a, insulated from each other and from the ground, forming a pair of segments. This pair of segments is adjusted azross the pair of wireless con-- ductors as shown in Fig. 1, in such a manner that the outgoing current will flow throu 11 one segment and the incoming current w ll flow through the other segment of the palr.

'Theparticular antenna shown in F1 1 includes a circular band 5, a central hu 6,

and a diametrical bar 7, which connects the hub and band; all the elements 5, 6 and '7 being of insulating material. From the hub 6 there radiate a. series of metallic rods 8, each of which has a series of strips or cross pieces 9 of tin foil, copper or the like, which connect with the wire ess conductors X, and gather the current flowing in the wirelessand-metallic circuits. These rods 8 above the bar 7 constitute one of the segments of the antenna, and the rods 8 below the bar 7 constitute the other segment of the pair of segments referred to above.

Referring to Fig. 2, wherein is shown a transmitter-generator designed for the use of two-phase alternating current, the metal- V lic conductors from the two-phase generator Gr extend to the parabolic reflector R, as above explained, and terminate each with a series of transmitting antenna. The metallic conductors A for phase 1 current are, of course, located diametrically opposlte each other, and so also are the metallic conductors A for phase 2; the conductors for phase 2 being disposed at right angles to those for phase 1. In this instance, the reflector R is shown as located within sleeve P. The receiving antenna, as before, in-

cludes a circular ring 5 divided diametrically by a bar 7, and in addition again di- 'the parabolic reflector R, and these wireless conductors X, -X' connect both with the transmitting antennae A, A and with the receiving antennae a, a' thus forming complete wireless-andmetallic circuits. The wireless-aiid-metallic. circuit which carries phase 1 current is indicated by the letters A X a X A, and the wireless-and-metallic circuit which carriesphase 2 current is indicated by the letters A X a X A. These two-phase currents are then led to motors,

/ incandescent lamps, or other types of utilizing apparatus, as shown inFig. 3.

In Fig. 3 I have shown how a receiving antenna, such as that shown in Fig. 2, for

example, may be connected to various types of utilizing apparatus. Thus, the rods 8 of the segments a, a are connected to metallic conductors 11, and the rods 8 of the segments 0., a are connected to metallic conductors 12. The wires 11 carry phase 1 ourrent, and the wires 12 carry phase 2 current.

When a high voltage generator is used, as is often advisable, step-down transformers marked T may be employed for one phase or for both or all phases. M is a slnglephase motor; M is a two-phase motor, and L is a string of lamps. v

A'feature of my invention is to construct and maintain wireless-and-metallic circuits between the transmitting apparatus and the apparatus for utilizing the energy. My socalled wireless conductors connect the metallic conductors of the transmitting antenna with the metallic conductors of the receiving antenna, and the latter conductors are connected with the metallic conductors of the utilizin apparatus, thus forming one or more comp ete, wireless-and-metallic circuits through which the energy flows in a confined path or narrow channel in any desired direction.

Another feature of my invention is to produce a beam of X-rays, which rays are known to construct lines of conductivity in the air, the water, and in other substances through which the rays pass. X-rays constitute one species of my wireless conductors. X-rays are known to be produced by the sudden stoppage of swiftly moving electrons; and it is also known that when tungsten (among other metals) is heated to incandescenoe, a copious supply of electrons will be liberated therefrom and discharged at high speed; that when a moving electron is brought to a sudden stop by impact with a hard substance, it gives rise to an X-ray,

which is reflected from the surface of the,

reflector at the same angle at which; the moving electron strikes that'surface, the angle of reflection being equal to the angle of in cidence, as in the case of light. Upon these familiar principles ll produce a beam. of X-rays by placing a source of electrons, such as an electrically heated tunsten-wire spiral, at the focus of a parabolic reflector. X- rays are further known to travel in straight lines, and to penetrate water a considerable distance, and to penetrate air a greater distance, and to act upon the photographic plate, and-to take shadow pictures.

Another feature of my invention isto pro- 'duce a beam of 'Z-rays or ultra X-rays, which constitute a second species of my wireless conductors. Z-rays are ultra X-rays, and are produced by the sudden stoppage of swiftly moving electromagnetons, or electromagnetic units, composed of electrons satu rated, with magnetic energy, as explained more fully elsewhere. A beam of Z-rays is produced by superposing a moving magnetic field, referably a spirally revolving magnetic eld, upon the streams of electrons discharged from a hot cathode at the focus of a parabolic reflector. Since electromagnetons possess higher kinetic energy than an equal number of electrons moving at equal velocity, it follows that the Z-rays generated by the sudden stoppage of swiftly moving electromagnetons will be endowed with greater penetrating power than the X-rays generated by the sudden stoppage of electrons moving at the same speed, and the beam of wireless conductors which is generated by the Z-ray beam will extend to a greater distance from the transmitter-generator than will the beam or wireless conductors which is generated by the beam of X-rays. 1 Another advantage of superposing -the spirally revolving ma etic field upon the electr hfs discharged rom a hot cathode at the {oixus of the parabolic reflector is that the electromagnetons are more advantageously distributed over the inner surface of the parabolic reflector,so that the rays produced by their sudden stoppage will ductors depends upon the number of eleo-,

form a denser and more symmetrical beam of rays, whereb a denser and more symmetrical beam 0 wireless conductors willbe constructed in the desired portion of space.

The density of the beam of .wireless con.-

trons discharged from the hot cathode. When a very dense beam is desired, it may be produced by employin the method of two cathodes heated by po yphase currents, as shown in Fig. 6 and explained elsewhere herein. v

Another advantage of the Z-ray method of producing a beam of wireless conductors force generated by the rotating magnetic field is distributed over a space of only two dimensions.

The feature of generating distributed electromotive force by the use of the spirally revolving magnetic field is obviously applicable generally to all kinds of conductors, whether wireless or metallic.

Various forms of antenna are shown in the drawings, and may be .used either with the X-ray type or with the 'Z-lray type of transmitting and utilizing apparatus.

The transmitting antenna consists preferably of copper wires extending beyond the open end (or ends) of the transmittergenerator, toward the wireless conductors and intercepting or connecting with the wireless conductors, as indicated in Figures 1, 2, 6, 9, and 11.

The receiving antenna consists preferably of a wheel-like? structure divided into one pair of segments, a 0;, or into two pairs of segments, a a and a a, or into three (or more) pairs of segments. Each segment consists of metallic conductors and is insulated from all other segments, and each pair of segments is'preferably so arranged and placed across the beam of wireless conductors as to receive a particular phase of current, when the current is alternatlng current, and, when direct current is used,. each pair of segments is so adjusted as to receive and pass the outgoing current through one segment and the incoming or return current through the other segment of each pair of segments. When two-phase current is used, I. prefer-two airs of segments, a a and a an, as shown in igures 2 and 8. When fourphasecurrent is used, four pairs of segments may be emp oyed, as indicated in Fi 12, or two pairs may be employed, as indicated in Fig. 8. When three-phase current is used I prefer to employ three pairs of segments, each pair being so adjusted and placed across the beam of rays as to receive and to permit to pass through a particular phase of current. In the preferred case the short axis of the antenna should coincide as near as maybe feasible with the long or major axis of the beam of rays. The metallic conductors of each pair of segments are connected with the metallic conductors or windings of the utilizing apparatus, such as motors, electric lights, etc., as shown in Figures 3, 8 and 12.

When direct current is supplied to my beam of wireless conductors, a section consisting of onehalf of the wireless conductors will carry outgoing current to the receiving and utilizing apparatus, and the other section of the wireless conductors will carry the return or incoming current back to the transmitter-generator. For direct current, the, receiving antenna consists preferably of two equal-sized segments forming a pair of segments,-ad 'usted at right angles to the beam of wireless conductors, so that one segment will receive the outgoing current and the other segment willreceive the return or incoming current.

lVhen single-phase alternatin current is supplied to my system of wireiess conductors, one-half of such conductors will carry the outgoing current and the other half will carry the incoming or return current. Of course, when the alternating current changes direction, the. half of the wireless conductors which previously carried the outgoing current will now carry the return or incoming current, and vice versa. The receiving antenna for single-phas'ecurrent, as well as for direct current, consists preferably of one pair of segments whose centers are displaced from each other one hundred and eighty degrees in a circular antenna, which is placed across the system so that its short axis will coincide approximately with the major axis of the system.

When polyphase current is supplied to my system of wireless conductors, the various phases are supplied at different transverse points or sections of'the system, correspondin to the number of phases supplied. T us when two-phase current is supplied to the system, it is supplied to four sections of the system whose centers are displaced ninety degrees from each other.

Leeann pair being one hundred and eighty degrees,

removed from each other, when two-phase current is used. 1

When three-phase current is supplied to my system of wireless conductors, it is supplied to sections of the system whose,

centers are displaced by sixty degrees, thus dividing the system into three pairs of sections, corresponding to the three pairs of segments of the receiving antenna. That isto say phase 1 current is supplied to one pair of sections of the system and flows back and forth through said pair of secvt-ionsand through one pair of segments in the receiving antenna, which segments are so arranged and adjusted as to receive this particular phase of current. Phase 2 current is supplied .to a second pair of sections and flows back and forth through this second pair-of sections,'and back and forth through a second pair of segments in the receiving antenna, said segments being so arranged. and adjusted as to receive this particular phase of current. Phase 3 current is supplied to a third pair of sections and flows back and forth through this "third pair of sections, and back and forth through a third pair of segments in the receiving antenna, said pair of segments being so arranged and adjusted as to receive this particular phase of current. Metallic conductors are em loyed to carry th threephase current mm the receivingantenna to the three-phase motor and other apparatus designed for three-phase current.

This method of transmitting polyphase currents consists in providing a system or cable, of wireless-and-metallic circuits, and supplying to said system or cable at different transverse sections the various phases of alternating current, and providing at the receiving station an antenna divided into a' suitable number of relatively insulated segments, each pair of segments being so adjusted and arranged asto receive a particular phase of the current and to pass it on to utilizing apparatus by metallic conductors connected therewith.

In more general terms the stream method .of transmitting energy consists in establishing a wireless-andfmetalliccircuit between the transmitting apparatus and the utilizing apparatus and in applying eleotrom'otive force across said circuit to produce a stream of electrons (electric energy), or in superposing a moving ma'gnetic' field, preferably said circuit, thereby pr ucing a stream of electromagnetons (electromagnetic energy). A leading feature of my Z-ray method of directive wireless'transmission of energy. is the production of a spirally revolving magnetic field by means .of polyphase alteretic field, upon field Iv may use two or more 1ron cores arranged in spirals and preferably doubled back upon themselves so as to interlink and cross each other and themselves at an Ice equal to the phase-angles or phase-di erences of the currents used in producing the spirally moving magnetic field. Thus when the currents have-phase-difierences of ninety degrees, the iron cores interlink and cross each other at an les of ninety degrees. When the currents ave phase-difierencesof one hundred and twenty degrees, the iron cores interlink and cross at an angle of one hundred and-twenty degrees.

In the solenoid variety of the Z-ray type of my transmitter-generator the ends of these iron cores are carried out beyond the body of the apparatus, so as to surround my beam on system of wireless conductors which connect with .the metallic conductors of the secondar. apparatus in my transmitter-generator. l y wireless conductors are wireless extensions of these metallic conductors. The action of this apparatus is to project a beam .or system of wireless conductors in the desired direction, and to connect these wireless conductors with the metallic conductors of both the transmitting and receiving apparatus, and to produce and superpose upon such wireless-and-metallic circuits a spirally revolving magnetic field, whereby electromotiye forces are induced and currents produced in such wireless-and-metallic circuits.

The X-ray method of wireless transmission of ener has been described in connection with igures 1, 2, and 3: Figures 4 to 12, relate to my Z-ray method of wireless transmission, reception and utihzation of energy, the preferred method, and will next be described. I

Fig. 4 represents the dynamo form of primary of the transmitter-generator used with my Z-ray method of wireless transmission of energy. G is a four-phase nerator supplying four-phase currents to t e four windings of the spiral solenoids marked S S and S S, and G C and C C are the iron cores thereof, which intersect each other at right angles. The phase windings are arranged like thoseof an induction motor. The 1ron ends C C and C C of the solenoids, S S and S S, are not wound for current, and extend out beyond the cylindrical framewbrk P of the apparatus at the front end. The function of these four-phase windings and currents is to produce four-phase fluxes in time-and-space quadrature w1th one another, as in the four-phase induction motor; and the ourrentsshould be caused to flow in the like relative directions as in the fourphase induction motor. Whenthe 1ron cor" of the solenoids are thus wound and supplied with four-phase currents, spiral y shifting magnetic poles will be produced in each solenoid, WlllCll poles move in the directions indicated by the arrows in Figures 4, 7 and 8. Moreover, by reason of my arrangement, two streams of spirally moving magnetic fluxes will be projected from the iron ends of the solenoids S Sand S" S into the space surrounding my beam of wireless conductors, and the poles of polarizations produced by the combinations of these projeeted four-phase fluxes will also shift spiralzly around said beam, asshown in Fig. The apparatus just described in Fig. 4 is the primary only of the transmitter-generator, and is used with a secondary Q, such as is separately shown in Fig. 5, the two constituents or members being separately shown for the sake of clearness. The primary and secondary members are shown combined in Fig. 6, although much of the detail has. been omitted for the sake of clearness. In Fig. 6 the apparatus is shown in operation, roducing a spirally revolving magnetic field and developing a beam of Z- ray wireless conductors.

have shown four-phase currents and circuits merely to illustrate my method of and apparatus for producing an spirally revolving magnetic field, and transmitting the energy to a distance from its source. But poly hase currents with any convenient num r of phases may be used with a suitable number of electrical circuits, which are spirally displaced in positipn from. each other by a position angle equal to the phase angle of the polyphase currents. In general terms, the apparatus comprises a plurality of solenoids, spirally arranged, whose iron cores intersect and extend 'beyondthe points of intersection, and plurality of electrical coils supplied with pol phase currents, said coils being spirally i splaced in position from each other aroundsaid spiral iron cores by a position angle equal "to the piiaseangle of the polyphase currents emp oye Also in general terms, the method consists in providing a plurality of spirally. arranged electrical circuits excited by polyphase electromotive forces displaced in timephase from each other by a phase-angle equal to the position angle of the coils of the circuits. g p

The spiral movement of the magnetic poles, produced by winding .the iron cores, G C' and C C, with four-phase windings and supplying these windings with fourp hase currents, is indicated by the arrows-in igures 4, 7 and. 8. By this arrangement I produce a spirally revolving magnetic field, by meansof which the-electrons are converted into-electromagnetons and Z-rays are generated,.and electric currents are produced by induction in my wireless-and-metallic circuits. -The poles of this magnetic field shift spirally around the secondary metallic conductors and around the beam of Z-ray 10 wireless conductors, and thereby induce currents in these conductors and in the wirelessand-metallic circuits, between the transmittin and utilizing apparatus.

he result of this arrangement is to pro- 76 duce a spirally moving stream of magnetism, which is analogous to the rotating stream or state of magnetism of the induction motor, with the important difference that my spirally moving stream of magnetism is 80 projected out into space through the ends of the solenoids, S S and S S.

My transmitter-generator may be likened to an electro-magnetic pum in that it drives or pumps streams of e ectroma etic energy around the circuits. Streams o electrons are driven along the lines of my metallic and wireless conductors, b the X-ray type and ultra violet my type 0 apparatus, and streams of electromagnetons are driven or pumped through the circuit or system of circuits by the Z-ray type of apparatus.

The wireless-and-metallic circuit may be, likened to an electromagnetic pipe-line in that it affords a narrow and confined chan- .nel for the flow of electromagnetic energy, and prevents the energy from spreading out over a wide expanse. This pipe-line is porous in the sense that free electrons and electrons which are dislodged from their mother atoms and energized by the beam of rays and by the other means and devices disclosed herein, are. driven from one part of the ,pipe-line into another art of the pipe-line and are all urged to ow through-1 the wireless-and-metallic circuit. The quantity of energy flowing in the circuit is thus increased at variouspoints, by the agency of some kind of distributed electromagnetic motive force. 4'

Fig. 6 illustrates a method of heating the cathodes K-and K electrically by polyphase currents, which are induced in the seconda? conductors by a moving magnetic field, pre erably by aspirally revolving magnetic field. In vFig. 6 each cathode consists of two tungsten wires which cross each other at the focus of the reflector R, but are not in metallic contact with each other. Each of the four tungsten wires of the two cathodes is placed in circuit with one of the copper conductors of the secondary. With four of said copper conductors dis laced by. ninety degrees and carrying four-p use currents, the two cathodes may be heated to incandescence, and will liberate and discharge a copious supply of electrons. The cathodes may be heated, however, in any suitable manner. In Fig. 1 the cathode K is heated by conduction current from a generatorrgf machines, such as motors and electric lamps,

can be operated by the energy transmitted by my methods of wireless transmission of energy. The electromagnetic energy transmitted by my stream method can also be converted into mechanical energy by means of my spirally revolving-field motor and other forms of apparatus which are especially designed for utilizing my spirally revolving magnetic field, 'such as my re-transmitter-' generator, illustrated in Fig. 12, to be later described.

Fig. 8 represents in diagram-form the primary for the closed spiral iron-core variety of transmitter-generator, with connections to. my receiving antenna through the primary windings. The iron cores of the primary are spirally arranged on a hollow cylindrical frame N, as already described in the case of my solenoid transmitter-generator, except that their ends do not project, but are ,welded together so as to make a continuous iron circuit with small magnetic leakage, in place of the large magnetic leakage at the ends of the solenoids in the solenoid variety of apparatus. In the dynamo variety of transmitting and re-transmitting apparatus, relativemotion between the primary and secondary members is permitted,

v be driven by mechanical power or energy.

and either member (or both members) may The dynamo converts this mechanical energy nearly quantitatively into electromagnetic energy. The apparatus has a large and variable reactance.' Self-excitation of the dynamo variety of my transmitter-generator and re-transmitter generator by armature reaction at speed can be explained by the fact that the counter electromotiye force of selfinduction is notwattless or in quadrature with the current, but contains an energy component offreactance, as in the case of the reaction generator. Negative power components of reactance exist in my wirelessand-metallic circuit, as in the case of a metallic oscillating-current circuit. The inductive reactance, as well as the condensive re- -actance, do not represent wattless electrometive forces, but introduce power components of negative sign into the circuit.

'Fig. 9 re resents the transformen type of my transmitter-generator in act-ion, sendin out two pairs of wireless conductors- S and S S are two solenoids wound in spirals around a cylindrical framework P, and intersecting. each other at right angles. The solenoids afiord four primary coils arranged as in my -dynamo type of apparatus, shown .in Fig. 4; and these four coils are supplied A whose ends constitute my transmitting antennae and connect with the wireless conductors as shown. B is a large parabolic reflector, with a hot cathode, K, located at its focus; and R is a small parabolic reflector, with another hot cathode K, located at its focus. These hot cathodes are the sources of electrons, most of which are dis-. charged against the walls of the reflectors and generate or originate Z-rays.

Fig. 10 is a dia ammatic representation of the secondary r a three-phase system, consisting of three copper loops Y, Y Y extending longitudinally around a cylindrical framework Q, with their ends projecting beyond the cylinder, and constituting the transmitting antennae, marked respectively A A, A A, and A .A These loops'are equally displaced from one another, and are insulated from each other.

Fig. 11 represents a double-barrelled secondary, projecting two beams of Z-ray wireless conductors j in opposite directions. There are two reflectors, R and R, facing in opposite directions, and there are,two sets of antennae, A A and Af A. .K and K are sources of electrons, heated by electric current. Fig. 12 shows my retransmitted-generator of the solenoid variety, with the primary windings connected with the four pairs of segments of a receiving antenna for fourphase currents. The four pairs of segments of the receiving antenna ,connect with the four phases of the alternating current carried by the Z-ray wireless conductors. By means of this apparatus, which is like my transmitter-generator, streams of energy can be transmitted either in the same direction as that of the original stream of energy or. in any other direction. Long-distance wireless transmission of energy in large quantities thus becomes feasible by the aid of my invention.

My stream of energy consists of two chief kinds or varieties of stream, which may be described as, first, the electric stream, composed of electrons (or electricity) flowing along my beam or cable of X-ray wireless conductors; and, second, the electromagnetic stream, composed of electromagnetons flowing along my beam or cable of Z-ray wireless conductors.

Movin electrons are known to be endowed with kinetic energy, and topossess mass. The kinetic energy of my stream of electrons, or electric stream, is therefore equal to the product of half the mass of the electrons into the square of the velocity; or, in symbols,

W equals m w where W is the kinetic energy, m is the mass,

and c is the velocity.

The kinetic energy of my electromagnet c stream is greater than that of the electric stream, it seems, thoughI am unable tosay how much reater t is. Moving magnetic poles and moving polarizations of space possess velocity ('v), and they act as if they also possessed mass (m), .and momentum or inertia; for instance, in the polyphase induction motor where the rotor is set in motion by, and revolves in the same direction as, the rotating magnetic poles. The same conclusion may be reached, however, namely, that my electromagnetic stream possesses greater kinetic energy than my electric stream, by saying that a larger number of electrons are driven or pumped into my circuits and set in stream-like motion by my distributed electromotive forces and my spirally revolving magnetic field than by concentrated electromotive forces, without a spirally revolving magnetic field.

The kinetic energy developed by my apparatus is considerable even when both the primary and secondary members are fixed in position and without relative motion.

In the dynamo variety of my transmitter generator, 'where relative motion between these two members is permitted, the k1ne t1c energy developed may be increased by drlving the secondary member of the transmitter-generator in the opposite d1rect1on to that of the revolving magnetic field, or by driving the primary member in the same direction as that of the revolving magnetic field. The kinetic energy developed ma .be still further increased by drivlng bot members in these respective directions at the same time.

metrically disposed "segmente ing the whole distance between said pairs, of spaced conductors, trlcally connecting said pair of wireless con-.

and means for elecductors to said pair of parabolic conductors at one end of the circuit and to said air of segmented conductors at the other en of the circuit. 4

2. The method of closing an otherwise open electric circuit between spaced metalmembers in the directions stated immediately parallel ing a spirally revolving magnetic field, and

means for applying said magnetic field across said'electrlc circuit. a

4. ,A system for transmitting energy comprising a polyphase alternator, a spiral-core transforming apparatus whose primary member is connected to said alternator and is adapted for producing a spirally revolving magnetic field, a secondary member in inductive relation to said spirally revolving magnetic field, receiving-utilizing apparatus at a distance therefrom adapted for receiving and utilizing alternating currents, means for producing a plurality of ultra X-ray wireless conductors, one pair for each phase of alternating current, and means for electrically connecting said wireless conductors to said secondary member at one end of the circuit and to said receivin'g-utilizing surface adapted for discharging an stream of electrons against said surface, a partially air-exhausted chamber enclosing said coil and said stream of electrons means vfor producing a spirally revolving magnetic field, and means for superimposing said magnetic field in such manner that the ma n tic flux will .reflecting surface and will be substantially to the direction of said stream of electrons.

v 6. The-method of producing a beam of ultra X-rays consisting in dischargin a stream of electrons from the focus 0 a, parabolic reflecting surface against said surface and in exposing said stream of electrons to the action of a spirally revolving magnetic field in such manner that the magnetic flux will be substantially parallel to the direction of said stream of electrons and will pass thro gh said parabolic reflecting.

producing an ultra X-ray.

pass through said parab'ol1c netic flux will be substantially parallel to the direction of said electron stream and will pass through said parabolic reflecting surface.

8. Means for producing a beam of ultra X-rays comprising a parabolic reflecting surface adapted for converting a stream of impinging electrons into a beam of X-rays, a source of electrons at the focus of said surface adapted for discharging a stream of electrons toward said surface, a partially air-exhausted chamber enclosing said source and said stream, means for producing a spirally revolving magnetic field, and means for superimposing saidmagnetic field there- 'on in such manner that its flux will pass throu h said surface and willbe substantially parallel to the direction of said stream of electrons.

9. Means for producing a pair of ultra X-ray wireless conductors comprising a pair of parabolic reflecting surfaces having a common focus and adapted for converting a pair of electron streams impinging thereon into a pair of X-ray beams. a source or sources of electrons located at said focus adapted for discharging a pair of electron streams toward said pair 0 reflecting surfaces, and means for focusing and concentrating each and every electron stream into an intense and confined stream of electrons comprisin a spirally revolving magnetic field whic its flux will be substantially parallel to the direction of each and. every electron stream and will pass through each and every parabolic reflectin surface.

' 10. The method of generating and transmitting electric current consisting in exposing a closed wireless-metallic circuit or system of such circuits to the action of a spirally revolving magnetic field.

11. Means for producing the wireless element of a system of closed wireless-metallic circuits comprising a plurality of parabolic reflectors, a source of electrons at the focus of each reflector adapted for discharging at least one definite stream of electrons against at least one definite segment of each reflector, a sealed chamber enclosing each source of electrons and cach'stream of electrons, and means for focusing and concentrating each electron stream upon a segment of the suitable parabolic reflector comprising a spirally revolving magnetic field whose flux is substantially parallel to the direction of each and every electron stream and passes through each and every parabolic reflecting segment.

12. Means for producing the wireless element of a system of closedwireless-metallic circuits comprising, for each pair of wireless conductors desired, a pair of parabolic refleeting surfaces having a common focus, an electron-discharging material located at said is applied in such manner thatfocus, means for producing a spirally revolvinginagnetic field, and means for superimposing said magnetic field thereon in such manner that the magnetic flux will pass through each and every pair ofparabolic reflecting surfaces and through the major portion of the electron discharge at less than a right angle 1.3. The method of transmitting alternating current through a closed and confined wireless-metallic circuit. or system of such circuits, which consists in the displacement of separate and distinct wireless conductors in space by a position angle equal to the phase angle of the current supplied.

14. In the wireless transmission of alternating current means for producing a system of confined wireless conductors comprising, for each base of alternatin current, a pair ofpara olic reflecting sur aces having a common focus and adapted for producing a pair of X-ray beams, a source of electrons at the focus of each reflecting surface adapted for discharging a definite stream of electrons toward each particular reflecting surface, and means for displacing the different streams of electrons from one another by a position angle equal to the phase-angle of the alternating current supplied.

15. In combination a' plurality of relatively insulated parabolic conducting segments, symmetrically spaced, a receiving antenna at a distance therefrom consisting of an equal number of relatively insulated conducting segments, likewise spaced, means for producing a plurality of confined X-ray wireless conductors, means for connecting said wireless conductors and the suitable segments into a closed and confined wirelessmetallic circuit or system of such circuits, and means for producing and applying a spirally revolving magnetic field.

16. In a system for transmitting electric energy through closed and confined wirelessand-metallic circuits, the method of endowing electrons with motion along the conductors of saidcircuits which consists in ex posing each circuit to the action of a spirally revolving magnetic field.

17. In combination a transmitting-generating apparatus, a receiving-utilizing apparatus at a distance therefrom, means for establishing a closed and confined-path wireless-..nd-metallic electrical circuit or system of such circuits connecting said apparatuses, means for generating electromotive forces distributed over two dimensions of space, and'm'eans for applying said distributed voltage across each circuit.

18. In combination a transmitting-gencrating apparatus, a receiving-utilizing ap paratus at a distance therefrom, means for establishing a closed and confined wirelessand-metallic electrical circuit or system of such circuits connecting said apparatuses,

fleas nected to mid g 1 p ir 'ofjmetallic spirall' revolving ma angle of said currents.

21. In combination a spiral-core transmitting-generating apparatus provided with metallic rimary and secondary circuits adapted or the production of .a spirally revolving magnetic field and for generating electromotive forces in its metallic secondary conductors, a metallic receivin antenna at a distance therefrom adapted or receivin alternating current transmitted to it throug a system of confined wireless conductors, and means for producing a system of confined wireless conductors extending the whole distance between and electrically connected both to the metallic secondary con ductors of said transmitting-generating apparatus andto the metallic.conductors of said receiving antenna.- at symmetrically spaced points.

22. A system of closed wireless-and-metallie electrical circuits for transmitting alternatlng current comprising twosets of metallic conductors atopposite ends of each circuit which are disp aced from each other by a position angle ual to the phase angle of the impressed a ternating electromotive force, and two sets ofconfined wireless conductors on o posite sides of each circuit which are likewise displaced from each other, and means for electrically connecting said metallic conductors and said wireless conductors to each other so as to establish a closed and confinedath wireless-and-metaL lic electrical circuit or each and every phase of electromotive force impressed upon said system.

v23. In combination a source of current, a

' pair of metallic transmitting antennae connected to said source of current, a dpair of metalhc receivlng antennae at ,a lstance therefrom connected to the metallic conductors of a selected utilizing apparatus, and

means for producing a pair of separate wireless conducting sections extend ng length- J w se; so located as to makeelectrical connection with both pairs of said metallic transmit-tin and receiving antennae.

24., n combination an alternator, a pair of metallic transmitting .antennaae con:

receiving antennae at a distance therefrom 26. In combination a plurality of para-- bolic reflectors, an electron-dischargin substance at the focus of each reflector a apted for the discharge of at least one stream of electrons, and means for producing a spirall revolving ma tic field transversely tot e major axes o aid reflectors.

27. In combination spaced metallic conductors, two parabolic reflectors havin an electron-discharging substance at the ocus of each reflector, means for the production of two beams of wireless conductors extending the entire distance between said metallic conductors, means for electrically connecting said beams to said metallic conductors and for establishing a closed and con-- fined-path wireless-and-metallic circuit, or s stem of such circuit, between said metal- 110 conductors, means for producing a sp1- rally revolving magnetic field and for superpos ng said field upon the aforesaid 1n such manner that the magnetic lines of said field will cut the conductors of each circuit in the course of revolution.

28. A system for generating and transmitting polyphase alternating currents comprising means for establishing at least two closed and confined wireless-and-metalllc electrical circuits arran ed in quadrature position, means for producing a spirally revolving magnetic field, means for superposing said magnetic field upon said circuits in such manner that the revolving magnetic lines of the field will cut the conductors of each circuit, .and means for increasingthe rate of cutting between said magnetic lines and said conductors. v

29. A closed wireless-and-metallic electrical circuit comprising a transmitting-generating apparatus, a receiving-utllizmg appa- Iratus at a distance therefrom, an X-ray wireless conductor extending the entire distance between and electrically connecting half of the metallic terminal conductors of each of said apparatuses, and means for electrically'connecting the other half of the metallic terminal conductors of each of said apparatuses to a conducting medium otherthan said wireless conductor.

30? A system for transmitting alternating.

current energy consisting of a system of wireless-and-metallic circuits comprising two sets of wireless conductors on opposite sides of each circuit. and of two sets of metallic conductors at opposite ends of each circuit, for each and every phase of alternating current supplied to the system, which wireless conductors and metallic conductors are so located with respect to each other as to make electrical connection, and to form a wireless-and-metallic circuit for each and every phase of alternating current supplied to the system.

31. In combination a pair of metallic transmitting antennae, a pair of metallic receiving antennae at a distance therefrom, means for producing a wireless element divided into a pair of conducting sections on opposite sides of said wireless element, and means for so locating said conducting sections as to make electrical connection with both pairs of said metallic antennae.

32. In combination symmetrically spaced metallic transmitting antennae adapted for making electrical connection with symmetrically spaced conducting sections in a wireless element, symmetrically spaced metallic receiving antennae at a distance therefrom likewise adapted for making electrical connection with said conduct-ing sections. means for producing a, wireless element divided into symmetrically spaced conducting sections, and means for so' locating said conducting sections as to make electrical connection with said metallic transmitting and receiving antennae.

33. In combination a source of electric current, a pair of metallictransmitting antennae connected thereto, a non-conducting parabolic reflector furnished with a pair of electrical conducting segments, means for producing a pair of confined wireless conductors and for connecting them to said pair of metallic conducting segments at the transmitting end of the circuit, a receivingutilizing apparatus at a distance therefrom, and means for electrically connecting thereto the same pair of confined wireless conductors.

34. \Vireless-and-metallic circuits for connecting an alternating-current transmittergenerator with utilizing apparatus, comprising, for each phase ofalternating current, a pair of metallic transmitting antennae, and for each phase of alternating current, a pair of metallic receiving antennae, and for each phase of alternating current, a. pair of wireless conductors connecting said transmitting and receiving an- .tennm, and. for each phase of alternating current, a pair of metallic conductors or windings of theutilizing apparatus desi ned for use with that particular phase 0? alternating current and connected to. a pair of said receiving antennae, thus form-' ing a complete wireless and-metallic circuit for each and every phase of alternating current.

35. A chain of wireless-metallic electric circuits comprising a plurality of such circuits linked together and electrically con-- uected from beginning to end of-the chain, each circuit being inductively connected to the adjacent circuit or circuits, so that electric current can be transmitted a long distance through a plurality of electric circuits from one part ofthe chain to another part. thereof.

36. In the wireless transmission of energy by alternating current. for each and every p iase of alternating current. a pair of metallic transmitting antennae. consisting of two sets of copper wires, each air of transmitting antennze connecting with a pair of wireless conductors extending to and connecting with a pair oi metallic conductors of the receiving antennae. which latter are connected to the pair of metallic conductors of the utilizing apparatus designed for use with that particular phase of alternating current.

37. A receiving antenna divided into one pair of relatively insulated segments for each and every phase of alternating current supplied to the system, consisting 0* a circular frame-\vor c having conducting segments 6X- tendingfrom near the center to the circumference, the base of the circular frame-work being insulated from the ground, and the whole apparatus adapted to be placed in operative relation with a system of wirelessand-metallic circuits so that each pair of segments will receive a particular phase of current and conduct that phase of current to the particular circuit in the utilizing apparatus designed to receive said phase of current and to convert it into useful work.

38. In the wireless transmission of current, receiving antenna divided into a pair of relatively insulated segments, one segment being located across a beam of wireless conductors-in such a manner as to receive the outgoing current and the other segment being so placed across the beam of wireless conductors as to receive the incoming current, flowing through a pair of said wireless conductors or flowing through a plurality of pairs of said wireless conductors.

39. A receiving antenna comprising a structure with metallic spokes and pendants, or cross-pieces, divided into one pair of relatively insulated segments, the structure being mounted so as to permit it to turn on its short axis or'axle, in operative relation with a system of wireless-and-metallic circuits carrying current, said receiving antenna being insulated from the earth.

40. Apparatus for receiving alternating energy transmitted by wireless conductors comprising a structure the surface of which containing metallic conductors, wit "one pair of segments for dach and every phase of circuit.

alternating energy flowing through said re ceiving apparatus, located in operative relation with a system of wireless-and-metallic circuits carrying current, said receiving apparatus being insulated from the earth.

&1. Apparatus for receiving and utilizing energy transmitted by wireless means comprising a hollow structure the surface of which is divided into a suitable number of -metallic segments insulated from each other and from the earth located in operative relation with a system of wireless-'and-metallic circuits carrying current, and a solid structure located within said hollow structure with an air-space between the two members, which are so mounted as to permit relative motion between the members, saidouter member correspondin to the primary of an induction motor, an said inner member corresponding to the secondary of an induction motor.

42. In combination symmetrically spaced metallic transmitting antennae, means for connecting opposite antennae into a closed and confined wireless-and-metallic circuit or system of such circuits, means for roducing a spirally revolving magnetic eld, and means for applying said field across each 43. In combination a segmented wireless receiving antenna, means for connecting opsite segments of said receiving antenna mto a closed and confined wireless-and-me- .tallic circuit or system of such circuits,

means for roducing a s irally revolving ma etic fie d, and means or applying sai fiel across each circuit.

44. The method of relaying ener without wires which'consists in spiral y twisting magnetic lines of ener around the wireless conductors of a c osed and confined wireless-and-metallic electrical circuit, or system of such circuits, in such manner that said magnetic lines will out said wireprocessof twisting. 45. The method oi re aying ener which consists in spirally twisting clo streams of polypliase magnetic ener around the wireless conductors of a close and confinedpath wireless-and-metallic electrical circuit,

or system of such circuits, in such manner that said streams will out said wireless conductors at a distance from the sources of said streams. Q 1 Y 46. The combination with a wireless r'ec'eiving apparatus of a wireless-and-metallic circuit connecting the receiving station with a transmitting station, and containing a source of distributedelectromotive force, namely a spirally revolving magnetic field applied across said wireless-and-metallic circult.

47. In combination, a s iral iron-core,- metallic primary windings or said spiral ironcorewhich are connected with an alternator, metallic secondary conductors in inductive relation to said primary windin s, utilizing apparatus at a distance there rom, and wireless conductors which are so located as -to make electrical connectionwith said uti- .lizing apparatus and with said metallic sec oiidary conductors, thus forming a complete wireless-and-metallic circuit, or system of circuits.

48., In combination, a spiral iron-core primary wound for poly hase current, adapted to producing a spirafiy revolving magnetic field, 'a secondary apparatus so mounted with reference to the primary apparatus as to permit relative motion between the two members, means for drivin one member and producing a spirally revo ving magnetic field,.t hus inducing electromotive force in the metallic secondary conductors, utilizing apparatus at a distance therefrom, and wireless conductors which are so located as to make electrical connection with saidutilizing apparatus and with said metallic secondary conductors, thus forming a complete wireless-and-metallic circuit or system of circuits.

49. In combination a wireless element divided into a pair of wireless conducting sections extending lengthwise, a air of metallic transmitting antennae an means for electrically connecting them to said pair of Wireless conducting sections, a. pair of metallic receiving antennae at a distance from said metallic transmitting antennae, and means for electrically connecting sald receivin antennm to the same pair of wireof metallic receiving antennae to thecorresponding pair of wireless conducting sec 7 tions'.

51. Apparatus for relaying and re-transmitting energy comprising a plurality of spirally arranged iron cores wound with primary coils for polyphase currents which coils are spirally displaced around said iron cores Byv a position angle equal to the phaseangle of the polyphase currents, the ends of the iron cores projecting beyond the primary coils, and the terminals of the primarycoils' being connected to the receiving apparatus at the relaying station, and comprising metal 11c secondary conductors in inductive relaing a system of closed and confined wirelessand-metallic electrical circuits connecting the relaying station with the next receiving station, means for producing a spirally revolving magnetic field, and means for applying said field across each and every electrical circuit.

53. In the wireless transmission of alternating-current energy, a metallic r'eceiving from the re- 1 antennae insulated from the earth, comprising for each and every phase of electromotive force, a air of conducting members diametrical y opposite each other and insulated from each other and from every other member, adapted to gather alternating-current energy and connected into -a system of wireless-and-metallic circuits in such manner as to afford a wireless-andmetallic circuit for each and every phase of electromotive force applied across the system.

54. The method of roducing a spirally revolving ma etic fie d which consists in supplying poyphase currents to winding coils which are displaced upon a spiral cone by a position angle equal to the phase angle of the currents supplied.

CONRAD RENO.

Certificate of Correction.

It is hereby ,certifiedthatfir Lettelr sR 1924 u on theapplication o lonrac en o, impi ov dment in f Systems for Transmitt ng Energy without Wires,

of Springfield, Massachusetts, for an errors appear in the printed specification requiring correction as follows: Page 5, hne 91.

for the misspelled word.. ars or; page 7 line 97 for'the word read are; page 6, line 11, for the word of read re-transmi-tted read re-trmlsmztter; page 8,

line 73, claim 3, for the word current 'read circuit; page 10, 11116 9 8, claim 27, for circuit read circuits; and page 13, line 36, cla1m 54, for cone read core; and that the said Letters Patent should be read with these corrections therein that the same may conform to the record of the casein the Patent Oflice.

Signed-and sealed this 14th day of October, A. D. 1994.

[SEAL] KARL FENNING, Acting Commissio'rwr of Patents.

Patent No. 1,504,974,- granted August 12, 

